Automated Physical Design of Microchip-Based Capillary Electrophoresis Systems

Yi-Ling Hsieh, Tsung-Yi Ho
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引用次数: 3

Abstract

Recently, micro fluidic biochips are gaining much attention. Especially microchip-based capillary electrophoresis system is one of the techniques that are developed in the area of separation on a microchip. In this paper, we present an automated physical design methodology for microchip based capillary electrophoresis channel systems. The proposed methodology includes three stages: (1) placement of subsystems, (2) routing of auxiliary channels, and (3) placement of I/O wells. In the first stage, simulated annealing is applied to place the subsystems such that the chip area and the cost of routing the auxiliary channels are minimized. Then the second stage is applied to route the auxiliary channels from the ports of the subsystems to the boundaries of chip. The objective of this stage is to minimize the length and the number of bends of the auxiliary channels. Finally, the third stage places the I/O wells on the boundaries. The experimental results show that the proposed methodology can achieve better results of chip area as well as the total length and number of bends of auxiliary channels.
微芯片毛细管电泳系统的自动化物理设计
近年来,微流体生物芯片备受关注。特别是基于微芯片的毛细管电泳系统是目前在微芯片分离领域发展起来的技术之一。在本文中,我们提出了一种基于微芯片的毛细管电泳通道系统的自动化物理设计方法。提出的方法包括三个阶段:(1)子系统的放置,(2)辅助通道的路由,(3)I/O井的放置。在第一阶段,模拟退火应用于放置子系统,使芯片面积和路由辅助通道的成本最小。第二阶段用于将辅助信道从子系统端口路由到芯片边界。这一阶段的目标是尽量减少辅助通道的长度和弯曲的数量。最后,第三阶段将I/O井置于边界上。实验结果表明,所提出的方法可以获得较好的切屑面积、辅助通道总长度和弯曲数的计算结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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